Results 71 to 80 of about 79,817 (291)
Determining the neurotransmitter concentration profile at active synapses [PDF]
, 2009 Establishing the temporal and concentration profiles of neurotransmitters during synaptic release is an essential step towards understanding the basic properties of inter-neuronal communication in the central nervous system.A Barberis, A Scimemi, A Tao, A Triller, AE Spruce, AG Ogston, AI Gulyas, AM Aravanis, Annalisa Scimemi, AV Hill, B Barbour, B Ceccarelli, B Granseth, B Katz, C Auger, C Nicholson, C Nicholson, C Nicholson, C Racca, D Colquhoun, D Colquhoun, D Sulzer, DA Rusakov, DE Bergles, DM Kullmann, DR Copenhagen, E Betzig, E Neher, E Sykova, EL Botvinick, EN Pothos, EP Huang, F Asztely, F Pouille, G Brasnjo, G Liu, G Szapiro, G Tong, GH Acheson, GH Patterson, H Korn, H Korn, H Shroff, HC Hartzell, IM Raman, J Balaji, J Castillo Del, J Hrabe, J Matthews-Bellinger, J Szabadics, JC Eccles, JC Eccles, JC Eccles, JD Clements, JE Heuser, JH Singer, JI Wadiche, JI Wadiche, JJ Celentano, JM Bekkers, JM Christie, JM Fernandez, JR Stiles, JS Diamond, JS Diamond, JS Diamond, JW Mozrzymas, JW Mozrzymas, K Belaya, K Krnjevic, K Luby-Phelps, K Zheng, KA Foster, KE Sorra, KL Magleby, KM Franks, KP Lehre, L He, L Tao, LG Longsworth, LM Levy, LM Wahl, LP Savtchenko, LS Overstreet, M Beato, M Beato, M Beato, MA Medina, Marco Beato, MI Banks, MJ Higley, MV Jones, MY Min, N Arnth-Jensen, N Harata, N Riveros, NC Harata, O Prange, P Fatt, P Fatt, P Legendre, PJ Kruk, PM Burger, Q Zhang, Q Zhang, R Ando, R Conti, R Renden, R Ventura, RG Thorne, RH Chow, RM Wightman, RW Daniels, RY Tsien, S Habuchi, S Hrabetova, S Manley, S Namiki, S Okumoto, S Takamori, SA Hires, SJ Pitt, SP Gandhi, SW Kuffler, SY Breusegem, T Lu, T Schikorski, T Schikorski, TA Nielsen, TG Allen, TG Banke, TG Oertner, TM Bartol Jr, V Burzomato, VA Levin, W Almers, W Lu, X Chen, XS Wu, Y Dehnes, Y Takumi, YH Huang, Z Nusser, Z Petrasek, Z Petrasek +144 morecore +2 more sourcesVitamin D Regulates Olfactory Function via Dual Transcriptional and mTOR‐Dependent Translational Control of Synaptic Proteins
Advanced Science, EarlyView.Vitamin D (VitD) modulates olfactory function by remodeling dendrodendritic synapses in tufted cells through vitamin D receptor‐dependent transcriptional and translational mechanisms. VitD regulates synaptic protein translation partially via mTOR signaling.Pengcheng Ren, Renhe Cao, Xiaoshan Ye, Wenbin Pang, Qingshang Bi, Meihui Huang, Qionglin Zhou, Dan Ye, Wei Xiang, Le Xiao +9 morewiley +1 more sourceAntipsychotic profiles of TASP0443294, a novel and orally active positive allosteric modulator of metabotropic glutamate 2 receptor
Journal of Pharmacological Sciences, 2015 Glutamatergic dysfunction has been implicated in psychiatric disorders such as schizophrenia. The stimulation of metabotropic glutamate (mGlu) 2 receptor has been shown to be effective in a number of animal models of schizophrenia.Hirohiko Hikichi, Tetsuaki Hiyoshi, Toshiyuki Marumo, Yasumitsu Tomishima, Ayaka Kaku, Izumi Iida, Hiroki Urabe, Tomoko Tamita, Akito Yasuhara, Jun-ichi Karasawa, Shigeyuki Chaki +10 moredoaj +1 more sourceStriatal N-Acetylaspartate Synthetase Shati/Nat8l Regulates Depression-Like Behaviors via mGluR3-Mediated Serotonergic Suppression in Mice [PDF]
, 2017 Background: Several clinical studies have suggested that N-acetylaspartate and N-acetylaspartylglutamate levels in the human brain are associated with various psychiatric disorders, including major depressive disorder. We have previously identified Shati/Aoki, Ariyannur, Asberg, Atsumi Nitta, Banki, Becker, Bespalov, Bzdega, Chaki, Chopra, Engers, Franklin, Fukumoto, Furukawa-Hibi, Huang, Huezo-Diaz, Kato, Kazuyuki Sumi, Kequan Fu, Kessler, Krzyzosiak, Kupfer, Kyosuke Uno, Meyer, Michelsen, Miyamoto, Miyamoto, Miyazaki, Moffett, Moffett, Nadler, Nakamura, Nakatani, Neale, Neale, Niwa, Noriyuki Iegaki, Olszewski, Passani, Pehrson, Podkowa, Pollak Dorocic, Reynolds, Reynolds, Shin-ichi Muramatsu, Sota Azuma, Sumi, Takanashi, Tepper, Trivedi, Tsunoka, Wilkie, Yoshiaki Miyamoto, Yudai Ishikawa, Zuo +54 morecore +2 more sourcesHuman Neuroepithelial Cells Express NMDA Receptors
BMC Neuroscience, 2003 L-glutamate, an excitatory neurotransmitter, binds to both ionotropic and metabotropic glutamate receptors. In certain parts of the brain the BBB contains two normally impermeable barriers: 1) cerebral endothelial barrier and 2) cerebral epithelial ...Cappell B, Chandler I, Nanda A, Warren A, Houghton J, Jackson TH, Fowler M, Sharp Christopher D, Long A, Minagar A, Alexander JS +10 moredoaj +1 more sourceCharacterizing Spatial Associations Between GluCEST MRI and Neurotransmitter Receptor Density in the Human Cortex. [PDF]
Hum Brain MappWe leveraged in vivo 7T GluCEST MRI and normative PET receptor maps to examine the spatial covariation between cortical glutamate levels and receptor expression. GluCEST signal showed positive spatial associations with NMDA and GABAA, but not mGluR5. These findings enhance our understanding of GluCEST and glutamate‐receptor dynamics across the cortex ...Pecsok MK, Shafiei G, Atkins A, Calkins ME, Gur RC, Reddy Nanga RP, Reddy R, Matyi MA, Stifelman J, Robinson H, Baller EB, Shinohara RT, Ruparel K, Linn KA, Wolf DH, Satterthwaite TD, McMillan CT, Roalf D. +17 moreeuropepmc +2 more sourcesAugmented Cystine–Glutamate Exchange by Pituitary Adenylate Cyclase-activating Polypeptide Signaling via the VPAC1 Receptor [PDF]
, 2014 In the central nervous system, cystine import in exchange for glutamate through system xc- is critical for the production of the antioxidant glutathione by astrocytes, as well as the maintenance of extracellular glutamate. Therefore, regulation of system Arimura, Ashur-Fabian, Asztely, Baker, Baker, Baker, Bannai, Bannai, Barger, Berman, Brenneman, Brown, Chen, Choi, Costa, Diamond, Dickson, Dugan, Fahrenkrug, Figiel, Fogal, Ghatei, Grant, Grant, Grimaldi, Grimaldi, Groot, Hannibal, Hannibal, Hashimoto, Jackman, Johnson, Joo, Joo, Knackstedt, Kranich, Kupchik, Lewerenz, Liu, Liu, Liu, Liu, Lobner, Macdonald, Magistretti, Martin, Masmoudi-Kouki, Masmoudi-Kouki, Moran, Morio, Murphy, Park, Piani, Pow, Rush, Rush, Sagara, Said, Sato, Schwartz, Seaborn, Shih, Shintani, Sontheimer, Suh, Suzuki, Tatsuno, Tatsuno, Vaudry, Vaudry, Yaka, Ye, Yuhara, Zheng, Zhou +74 morecore +2 more sourcesNeurochemical Changes in the Mouse Hippocampus Underlying the Antidepressant Effect of Genetic Deletion of P2X7 Receptors. [PDF]
, 2013 Recent investigations have revealed that the genetic deletion of P2X7 receptors (P2rx7) results in an antidepressant phenotype in mice. However, the link between the deficiency of P2rx7 and changes in behavior has not yet been explored.A McQuillin, A Scimemi, AA Boucher, AD Michel, AJ Law, AM Basso, AN Guerra, AV Gourine, B Sperlagh, B Sperlagh, B Sperlagh, Beáta Sperlágh, BP Guiard, C Csolle, C Delarasse, C Lavebratt, C Toro, C Verderio, Cecilia Csölle, CG Thomas, CM Anderson, DS Hasin, DT Balu, E Castren, E Fuchs, E Mundo, E Shimizu, E. Sylvester Vizi, Edit Papp, EJ Nestler, EK Green, F Frenois, F Karege, Flóra Gölöncsér, G Nagy, G Nowak, G Sanacora, G Sanacora, G Sanacora, Gabriella Zsilla, GE Hardingham, GE Wood, JE Malberg, JF Cryan, JF Cryan, JH Meador-Woodruff, JL Warner-Schmidt, JM Boyce-Rustay, JM Krueger, JO Groves, JS Barnholtz, K Hashimoto, K Hejjas, K Martinowich, K Viwatpinyo, K Wager-Smith, KR Tovar, L Backlund, L Bocchio-Chiavetto, L Papp, L Papp, L Patti, L Santarelli, L Stokes, L Zhang, LM Monteggia, M Baranyi, M Barbera-Cremades, M Diaz-Hernandez, M Grigoroiu-Serbanescu, M Koehl, M Masin, M Solle, ME Kozisek, ME Kozisek, ME Szapacs, ML Barbaccia, MT Miras-Portugal, MW Pfaffl, Mária Baranyi, N Barden, N Drigues, O Berton, OH Lowry, P Fossati, P Skolnick, P Soronen, P Vanhoutte, PA Lapchak, Peter Illes, R Dantzer, RC Hogg, RJ Griffiths, RJ Rodrigues, RS Duman, S Alloisio, S Duan, S Lucae, S Monleon, S Schnydrig, SN Williams, SP Banerjee, T Balazsa, T Deltheil, T Deltheil, T Zigova, Thierry Amédée, V Shukla, VF Labrousse, VM Brautigam, W Peng, Y Dwivedi, Y Shirayama, Z Hracskó, Ágnes Kittel +114 morecore +2 more sources